WO2023063742A1

WO2023063742A1 - Sequential independent-generation-type power generation device having induced-current-strength selection function

Info

Publication number: WO2023063742A1
Application number: PCT/KR2022/015491
Authority: WO
Inventors: 이승권
Original assignee: 이승권
Priority date: 2021-10-15
Filing date: 2022-10-13
Publication date: 2023-04-20
Also published as: KR102449464B1

Abstract

Disclosed is a sequential independent-generation-type power generation device having an induced-current-strength selection function, comprising: a pair of fixing plates having a rotary shaft passage hole and a plurality of fixing holes for fixing a plurality of ferrite cores; the plurality of ferrite cores fixed between the pair of fixing plates; a plurality of winding coils wound around the outer circumferential surface of a ferrite core; a pair of rotary plates, each being fixed to both end portions of a rotary shaft formed at the center of the fixing plate, so as to rotate together with the rotary shaft; a permanent magnet, which is provided on the inner side of a rotary plate and provides a magnetic field to the plurality of ferrite cores; and a magnet transportation means provided at the rotary plate so as to move the position of the permanent magnet, wherein the plurality of ferrite cores comprises a plurality of outer ferrite cores and a plurality of inner ferrite cores, the plurality of winding coils is composed of a first winding coil and a second winding coil that are wound a different of number of times around the outer and inner ferrite cores, and the magnet transportation means generates induced currents of different strengths by allowing the permanent magnet through end portions of the plurality of outer ferrite cores or end portions of the plurality of inner ferrite cores to be selectively passed therethrough.

Description

Sequential independent power generator with organic current intensity selection function

In the present invention, ferrite cores on which winding coils are wound are arranged in a circumferential shape, and permanent magnets sequentially pass through ends of a plurality of ferrite cores arranged in a circumferential shape so that independent voltages are sequentially generated in each winding coil. It relates to a sequential independent power generation device, and more specifically, a plurality of outer ferrite cores on which a first winding coil is wound are disposed spaced apart in a predetermined first circumference between a pair of fixed plates, and the first winding coil and A plurality of inner ferrite cores on which second coch coils having different winding numbers are wound are spaced apart on a second circumference inner than the first circumference, and a plurality of outer ferrite cores are rotated on the outside of the pair of fixing plates. Alternatively, a rotating plate for a rotor having permanent magnets passing through both ends of the plurality of inner ferrite cores is installed, but the permanent magnets are configured to be movable in an inward and outward direction from the center of the rotating plate for a rotor along the outer end, so that the permanent magnets are configured to have a plurality of It relates to a sequential independent power generator capable of selecting the induced current intensity generated by sequentially passing through the ends of an outer ferrite core with a time difference or sequentially passing through the ends of a plurality of inner ferrite cores with a time difference. .

In general, a generator uses electricity generated when a conductor moves in a magnetic field to convert mechanical energy, that is, mechanical energy, generated from various energy sources such as chemical or nuclear energy into a magnetic field. It refers to a device that converts electrical energy into electrical energy according to Fleming's right-hand rule, which is a rule that determines the direction of the magnetic field and the direction of the induced electromotive force or induced current in the direction in which the conductor moves when the conductor moves, and is divided into AC generator and DC generator.

In recent years, although generators by linear motion have been developed, most of them are composed of rotary generators. However, all generators are the same in that they generate electromotive force by electromagnetic induction.

In general, a generator consists of a field part that forms a magnetic field and an armature part that rotates in a magnetic field.

At this time, the field part is the name of the part where the magnetic force line of the magnet forms the magnetic field, and refers to the magnet attached to the housing of the generator.

In addition, the armature portion refers to a portion that emits lines of force by applying a current, and is also referred to as an armature, a rotor, or a core.

In a generator having the above configuration, a magnetic field is always formed around a wire through which a current flows, and the armature rotates due to the force that the magnetic field of the permanent magnet and the magnetic field generated from the coil of the armature push or pull each other. It will do.

On the other hand, looking at the process in which electricity is generated between a magnet and a coil in a conventional generator, hysteresis loss due to counter-electromotive current and eddy current due to magnetic motion occur, resulting in a useless heavy load and generation of heat.

In particular, when excessive current is used and an unexpected short circuit (short circuit) occurs, various instruments and equipment are damaged due to power failure due to fire loss or overload of the generator.

In addition, there is a risk of damage to the generator, so it is absolutely impossible to use 100% of the total amount of power actually produced, or to use it at the risk of overloading close to the total amount of its output. Therefore, it is always necessary to use a smaller amount than the output, and the loss that occurs accordingly is enormous than expected, and this is the current state of power generation operation.

In addition, the force that hinders the rotor of the generator is due to the magnetic field generated in the armature coil when current flows in the armature coil, and this magnetic field interacts with the magnetic field of the rotor to generate counter-electromotive force that hinders rotation of the rotor.

In order to solve these conventional problems, Patent Registration No. 10-1324546 has a configuration in which a rotating shaft through hole is formed at the center point and a plurality of ferrite core fixing holes are formed at regular intervals along the circumference having a predetermined diameter, and are parallel in the vertical direction. A pair of fixed plates integrally coupled to each other through a fixing and space maintaining means to maintain the; It has a bar shape and is fixed between a pair of fixing plates in a form in which both ends are inserted into the ferrite core fixing holes, so that when the permanent magnets pass through both ends exposed to the outside of the fixing plates, the magnetic field generated from the permanent magnet forms a closed circuit. A plurality of ferrite cores and; A plurality of windings installed on the outer circumferential surface of the ferrite core in a form wound at a predetermined number of revolutions to induce and transmit the induced electromotive force or induced current generated when the magnetic field of the permanent magnet passes through each ferrite core to the power control unit. Coil and; Corresponding to the number of rotations of the rotating shaft connected to the shaft of the rotating force generating means, each fixed to both ends of the rotating shaft installed in a form passing through the rotating shaft through hole formed at the center point of the fixed plate in a state of being disposed close to the outer side of the pair of fixed plates. a pair of rotating plates for rotors that rotate together with the rotating shaft; A plurality of permanent magnets having a form facing each other so that S poles and N poles have opposite directions on the inside of the rotor rotating plate and are fixedly installed at predetermined intervals and arrangements to provide magnetic fields to the plurality of ferrite cores; A time difference generator using bipolar equilibrium, characterized in that, has been published.

However, in the time difference generator using bipolar balance of Registered Patent No. 10-1324546, the ferrite cores installed on the fixed plate have the same winding coils with the number of windings set at the time of design, and the permanent magnet is fixedly mounted on the rotating plate for the rotor. Because of the structure that cannot be moved, the same induced current intensity is generated in one generator, and if you want to change the induced current intensity generated by changing the number of turns of the winding coil, the winding work of the winding coil as a whole is redone. It was necessary to proceed, or the ferrite core with the winding coil wound with a different number of turns had to be replaced on the fixed plate.

Registered Patent No. 10-1324546

The present invention has been devised to solve the conventional problems as described above, and arranges a plurality of outer ferrite cores on which a first winding coil is wound between a pair of fixed plates spaced apart on a predetermined first circumference, and A plurality of inner ferrite cores on which a second coch coil having a different number of windings than the coil is wound are spaced apart on a second circumference inside the first circumference, and a plurality of outer ferrite cores are rotated on the outside of the pair of fixing plates. A rotating plate for a rotor having a ferrite core or a permanent magnet passing through both ends of a plurality of inner ferrite cores is installed. An induced current intensity selection function capable of selecting the induced current intensity generated by independently passing the ends of the plurality of outer ferrite cores with a time difference or independently passing the ends of the plurality of inner ferrite cores with a time difference. It is an object to provide a sequential independent power generation device having.

In addition, the present invention is configured to automatically move the position of the permanent magnet in the inner and outer direction along the outer end from the center on the rotating plate for the rotor, so that the permanent magnet can be automatically moved without the need to manually move the position of the permanent magnet. Another object is to provide a sequential independent power generation device having an organic current intensity selection function capable of automatically moving the position of a permanent magnet by control.

However, the object of the present invention is not limited thereto, and even if not explicitly mentioned, the purpose or effect that can be grasped from the solution or embodiment of the problem is also included therein, of course.

In order to achieve the above object, the sequential independent power generator having an organic current intensity selection function of the present invention has a rotation shaft through hole formed at the center point, a plurality of fixing holes for fixing a plurality of ferrite cores on the circumference are formed, , a pair of fixing plates coupled in parallel; A plurality of ferrite cores having a rod shape and fixedly installed between the pair of fixing plates in a form in which both ends are inserted into the ferrite core fixing holes, respectively; A plurality of winding coils wound around the outer circumferential surface of the ferrite core and inducing induced electromotive force or induced current generated when the magnetic field of the permanent magnet passes through each of the ferrite cores and transferring the induced electromotive force to a power control unit; A pair of rotating plates fixed to both ends of a rotating shaft installed in a manner passing through the rotating shaft passing hole in a state of being disposed close to the outer side of the pair of fixed plates, respectively, and rotating together with the rotating shaft; permanent magnets installed inside the rotating plate so that S poles and N poles face each other so as to have opposite directions, and provide magnetic fields to the plurality of ferrite cores; and a magnet moving means configured on the rotating plate to move the position of the permanent magnet, wherein the fixing plate is formed with a plurality of outer fixing holes spaced apart at predetermined intervals in a first circumference having a predetermined diameter, and the plurality of A plurality of inner fixing holes are formed spaced apart at predetermined intervals on a second circumference having a diameter smaller than that of the first circumference inside the outer fixing hole, and the outer fixing hole and the inner fixing hole are in a straight line along the outer direction from the center of the fixing plate. The plurality of ferrite cores are composed of a plurality of outer ferrite cores inserted into and fixedly installed in the outer fixing hole and a plurality of inner ferrite cores inserted into and fixedly installed in the inner fixing hole. The winding coil includes a first winding coil wound around the outer ferrite core and a second winding coil wound around the inner ferrite core, wherein the first winding coil has a greater number of turns than the second winding coil. It is configured so that the induced current intensity generated when the permanent magnet passes the end of the outer ferrite core is greater than the induced current intensity generated when the permanent magnet passes the end portion of the inner ferrite core, and the magnet moving means moves the permanent magnet is moved inward and outward from the center of the rotary plate along the outer direction so that the permanent magnet rotates according to the rotation of the rotary plate and sequentially passes through the ends of the plurality of outer ferrite cores, passing through the first winding coil to the first It is characterized in that the induced current is generated or the second induced current is generated through the second winding coil by sequentially passing the ends of the plurality of inner ferrite cores.

According to the above, the present invention is an improvement of the time difference generator of registered patent registration No. 10-1324546, and an outer ferrite core and an inner ferrite core are configured in different circumferential shapes on a fixed plate, and each of the outer and inner ferrite cores It is configured by winding the first and second winding coils to have different winding numbers, and a permanent magnet is installed on the rotary plate rotating outside the fixed plate, but a magnet moving means capable of moving the permanent magnet on the rotary plate is provided to make it permanent. As the position of the magnet moves, the permanent magnet can selectively pass while facing the end of the outer ferrite core or the inner ferrite core, so even if other conditions are not changed, power generation is achieved by selecting the induced current generation strength by the position movement of the magnet. can make you lose

On the other hand, in the present invention, the magnet moving means of another type can move the position of the magnet by the motor driving method, so that the magnet can be moved automatically without a separate manual work, improving the convenience of operation.

1 is a perspective view showing a sequential independent power generation device having an organic current intensity selection function according to a first embodiment of the present invention,

2 is an exploded perspective view showing a sequential independent power generation device having an organic current intensity selection function according to a first embodiment of the present invention;

3 is a cross-sectional view showing a sequential independent power generation device having an induced current intensity selection function according to a first embodiment of the present invention in FIG. 1;

4 is a view showing an example of a first winding coil (a) wound around an outer ferrite core of FIG. 1 and a second winding coil (b) wound around an inner ferrite core;

5 is a view showing the arrangement of a plurality of outer ferrite cores and a plurality of inner ferrite cores installed on the fixed plate of the present invention;

6 is a view showing the position adjustment state of the permanent magnets installed to be position-adjustable on the rotating plate for the rotor of the present invention,

7 is a view showing a state in which the installation position of the permanent magnet is changed in FIG. 3;

8 is a cross-sectional view of the main part showing another form of the positioning means of the present invention,

9 is a perspective view showing a sequential independent power generation device having an organic current intensity selection function according to a second embodiment of the present invention;

10 is an enlarged view showing a main part of the rotating plate for a rotor shown in FIG. 9;

11 is a view showing the positional state of both permanent magnets and ferrite core ends installed by adjusting the position of the rotor rotation plate of the present invention according to the second embodiment,

12 is a cross-sectional view showing a sequential independent power generation device having an organic current intensity selection function according to a second embodiment.

The above objects, other objects, features and advantages of the present invention will be easily understood through the following preferred embodiments in conjunction with the accompanying drawings. However, the present invention is not limited to the embodiments described herein and may be embodied in other forms. Rather, the embodiments introduced herein are provided so that the disclosed content will be thorough and complete and the spirit of the present invention will be sufficiently conveyed to those skilled in the art.

In this specification, when an element is referred to as being on another element, it means that it may be directly formed on the other element or a third element may be interposed therebetween. Also, in the drawings, the thickness of components is exaggerated for effective description of technical content.

Embodiments described in this specification will be described with reference to cross-sectional views and/or plan views, which are ideal exemplary views of the present invention. In the drawings, the thicknesses of films and regions are exaggerated for effective explanation of technical content. Accordingly, the shape of the illustrated drawings may be modified due to manufacturing techniques and/or tolerances. Therefore, embodiments of the present invention are not limited to the specific shapes shown, but also include changes in shapes generated according to manufacturing processes. For example, an etched region shown at right angles may be round or have a predetermined curvature. Accordingly, the regions illustrated in the drawings have attributes, and the shapes of the regions illustrated in the drawings are for exemplifying a specific form of a region of an element and are not intended to limit the scope of the invention. Although terms such as first and second are used to describe various components in various embodiments of the present specification, these components should not be limited by these terms. These terms are only used to distinguish one component from another. Embodiments described and illustrated herein also include complementary embodiments thereof.

Terms used in this specification are for describing embodiments, and are not intended to limit the present invention. In this specification, singular forms also include plural forms unless specifically stated otherwise in a phrase. The terms 'comprises' and/or 'comprising' used in the specification do not exclude the presence or addition of one or more other elements.

In describing the specific embodiments below, various specific contents are prepared to more specifically describe the invention and aid understanding. However, a reader having knowledge in this field to the extent of being able to understand the present invention can recognize that it can be used without these various specific details. In some cases, it is mentioned in advance that parts that are commonly known in describing the invention and are not greatly related to the invention are not described in order to prevent confusion for no particular reason in explaining the present invention.

Hereinafter, with reference to FIGS. 1 to 8, a sequential independent power generator 1 having an induced current intensity selection function according to a first embodiment of the present invention will be described.

The sequential independent power generator 1 of the present invention includes a pair of fixed plates 10, a plurality of

ferrite cores

30a and 30b, a plurality of winding

coils

30a and 30b, and a pair of rotor plates 50 , It is configured to include a plurality of permanent magnets 60 and a magnet moving means 70.

The fixing plate 10 is composed of a pair, and is configured to be coupled to be spaced apart from each other at a predetermined interval through the fixing and spacing maintaining means 20 side by side. Here, the fixing and space keeping means 20 is molded into a rod shape having a predetermined diameter and length and a plurality of supporters 21 installed between the pair of fixing plates 1; It may be composed of a plurality of bolts 22 and nuts 23 that are mutually fastened in a state of being installed to pass through the pair of fixing plates 10 and the supporter 21, respectively.

The fixing plate 10 has a rotating shaft passage hole 11 formed at the center and fixing

holes

12a and 12b for fixing ends of a plurality of ferrite cores at regular intervals along a circumference having a predetermined diameter are formed. It consists of

Specifically, the fixing plate 10 is configured with a plurality of outer fixing holes 12a spaced apart at predetermined intervals in a first circumferential shape having a predetermined diameter, and the first circumferential shape to the inside of the plurality of outer fixing holes 12a. A plurality of inner fixing holes 12b are configured to be spaced apart at predetermined intervals on a second circumference having a smaller diameter toward the inner side. In addition, each of the outer fixing hole 12 and the inner fixing hole 12b is configured to be disposed on a straight line along an outward direction from the center of the fixing plate 10 .

The plurality of ferrite cores 30 are made in the shape of a rod, and both ends are fixedly installed by being inserted into the fixing

holes

12a and 12b, and both ends exposed to the outside of the fixing plate 10 become permanent magnets when the permanent magnet 60 passes. The magnetic field generated in (60) forms a closed circuit.

In the present invention, the plurality of ferrite cores 30 include a plurality of outer ferrite cores 30a inserted into and fixedly installed in the outer fixing hole 12a, and a plurality of inner ferrite cores 30b inserted into and fixedly installed in the inner fixing hole 12b. ) is made up of

The plurality of winding

coils

40a and 40b are installed in a form wound by a predetermined number of windings on the outer and

inner ferrite cores

30a and 30b, respectively, and the permanent magnets 60 through the outer and

inner ferrite cores

30a and 30b, respectively. ) is configured to induce induced currents generated when the magnetic field passes through and transmit them to the power control unit 80.

The plurality of winding

coils

40a and 40b include a plurality of first winding coils 40a wound around a plurality of outer ferrite cores 30a and a plurality of second winding coils (wound around a plurality of inner ferrite cores 30b) 40b), and each first winding coil 40a is configured to have a larger number of turns than each second winding coil 40b, so that the permanent magnet 60 is formed at the end of the outer ferrite core 30a. The induced current intensity generated when passing the inner ferrite core 30b is configured to be greater than the induced current intensity generated when passing the end of the inner ferrite core 30b.

That is, since the intensity of the induced current induced in the coil is proportional to the number of turns (number of turns) in which the coil is wound around the core, the first winding coil 40a having a larger number of turns than the second winding coil 40b has the number of turns. A large induced current can be induced compared to the second winding coil 40b having a smaller .

A pair of rotating plates 50 for rotors are installed in the form of penetrating the rotating shaft through-holes 11 formed at the center points of the fixing plates 10 in a state in which they are disposed close to each other on the outside of the pair of fixing plates 10 51 ) It is fixed to both ends of the rotating force generating means 90 and is configured to rotate together with the rotating shaft 51 in response to the number of rotations of the rotating shaft 51 connected to the shaft.

The permanent magnet 60 is installed in the form of facing each other so that the S pole and the N pole have opposite directions on the inside of the rotor rotary plate 50, and rotates together with the rotor rotary plate 50 while rotating with a plurality of outer ferrite cores 30a. ) or to provide a magnetic field to the plurality of inner ferrite cores 30b.

The magnet moving means 70 moves the permanent magnet 60 installed on the rotor rotating plate 50 from the center of the rotor rotating plate 50 inward and outward along the outer end direction so that the permanent magnet 60 is the rotor rotating plate While rotating according to the rotation of (50), the ends of the plurality of outer ferrite cores (30a) are sequentially passed through so that an induced current is generated through the first winding coil (40a) or the plurality of inner ferrite cores (30b) It is a configuration for generating an induced current through the second winding coil 40b by sequentially passing the ends.

The magnet moving means 70 includes a guide part 71 formed on the rotating plate 50 for the rotor and guiding the movement of the permanent magnet 60, and a permanent magnet 60 guided by the guide part 71 and adjusted in position. ) It is configured to include a magnet fixing part 75 for fixing.

The guide part 71 is formed on the inner surface of the rotating plate 50 for the rotor, and is formed in the form of a long hole with a predetermined length along the outer direction from the center of the rotating plate 50 for the rotor, so that the permanent magnet 60 is inserted and seated. The front rail groove 72 for movement is formed on the outer surface of the rotor 50 and is formed along the front rail groove 72 so as to be connected to the inner rail groove 72, and the front rail groove 72 It is configured to include a rear rail groove 73 configured to have a narrower width than the width of.

The magnet fixing part 75 is configured to extend from the permanent magnet 60, penetrates the rear rail groove 73 and is configured to protrude from the rotating plate 50 for the rotor, and interlocks with the movement of the permanent magnet 60. It is configured to move along the rear rail groove 73 and is made of a coupling rod 76 having a thread formed on the outer circumferential surface and a nut and is screwed to the coupling rod 76 and the permanent magnet 60 is installed by tightening the front rail groove It may be configured to include a fixing member 77 for fixing to a predetermined position of (72).

In this embodiment, the user manually changes the position of the permanent magnet 60 and fixes it to the outer end of the front rail groove 72 as shown in FIG. 6 (a), or as shown in FIG. 6 (b), The position can be fixed to the inner end of the front rail groove 72.

The user moves the permanent magnet 60 to the outer end or inner end of the front rail groove 72 in a state in which the fastening member 77 is rotated in the fastening release direction in the coupling rod 76 so that the fastening is released. Then, by fastening the fixing member 77 to the coupling rod 76 again, the state in which the permanent magnet 60 is moved in the front rail groove 72 can be maintained.

When the permanent magnet 60 is rotated in conjunction with the rotation of the rotating plate 50 for the rotor in a state where the position is fixed at the outer end of the front rail groove 72, each permanent magnet 60 is a first winding coil As (40a) sequentially passes through the ends of the wound outer ferrite cores (30a), the magnetic field generated from the permanent magnet (60) forms a closed circuit, and an induced current is induced in the first winding coil (40a), and the induced current is It may be transmitted to the power control unit 80.

On the other hand, when the permanent magnet 60 is rotated in conjunction with the rotation of the rotating plate 50 for a rotor in a state where the position is fixed at the inner end of the front rail hole 72, each permanent magnet 60 is As the winding coil 40b sequentially passes through the ends of the wound inner ferrite cores 30b, the magnetic field generated from the permanent magnet 60 forms a closed circuit, induced current in the second winding coil 40b, and induction Current may be transmitted to the current controller 80 .

As described above, the present invention provides a plurality of outer ferrite cores 30a around which a first winding coil 40a having a predetermined number of turns is wound, and a second winding coil having a number different from that of the first winding coil 40a. A plurality of inner ferrite cores (30b) with (40b) wound thereon are respectively arranged in two circumferential shapes having different diameters between a pair of fixing plates (10), and permanent magnets (60) are magnet moving means (70). By being configured to move inward and outward from the center of the rotor rotation plate 50 along the outward direction and fixing it, the permanent magnet 60 is selectively, as shown in FIG. 3, the ends of the outer ferrite cores 30a. or, as shown in FIG. 7, passing through the ends of the inner ferrite cores 30b to generate different induced current intensities.

As described above, the magnet moving means 70 of the present invention includes a guide part 71 formed on the rotating plate 50 for a rotor and guiding the movement of the permanent magnet 60, and the guide part 71 It is configured to include a magnet fixing part 75 for fixing the guided permanent magnet 60, which is positioned at the outer end of the front rail groove 72 by manually changing the position of the permanent magnet 60 by the user. Although it has been described that it is configured to be fixed or to be positioned at the inner end of the front rail groove 72, referring to FIG. 8, the magnet moving means 70' of the present invention is a permanent magnet automatically by a motor drive method. (60) can be configured to displace.

The magnet moving means 70' of the present invention shown in FIG. 8 includes a guide part 71 formed on a rotary plate 50 for guiding the positional movement of the permanent magnet 60, and a motor for the permanent magnet 60. It is configured to include a magnet moving driving unit 80 that moves the position by a driving method.

The magnet moving driving unit 80 includes a driving motor 82 fixed to the outer end of the rotor rotating plate 80, a rotation support 83 installed at the inner end of the rear rail groove 73, and a rear rail groove ( 73), one end is configured to be rotated by the rotation support part 83, and the other end is configured to be coupled with the drive shaft of the drive motor 82, configured to rotate according to the driving of the drive motor 82, and the outer circumference can be The threaded screw rod 84 and the permanent magnet 60 are fixedly installed to be inserted into the rear rail groove 73, and the screw rod 84 passes through the screw rod 84 and the ball-screw. It is configured to be connected in a manner and is configured to include a moving member 86 for moving the permanent magnet 60 along the front rail groove 72 while moving along the screw rod 84 according to the rotation of the screw rod 84 do.

With the above configuration, according to the driving control of the driving motor 82, the permanent magnet 60 is automatically positioned at the outer end or the inner end of the front rail groove 72 without the need for manual work to select the induced current intensity. development can proceed.

On the other hand, both ends of the winding

coils

40a and 40b wound on the

ferrite cores

30a and 30b are connected to the fixed plate 10 on one side of the present invention, and the power control unit to which the winding

coils

40a and 40b are connected A terminal board 90 to which the input terminal of 80 can be connected can be provided.

At this time, the terminal plate 90 of the present invention is electrically connected to both ends of the first wire coil 40a wound around the outer ferrite core 30a, and the first terminal unit capable of connecting the input terminal of the power control unit 80 ( 91) and a second terminal unit 92 electrically connected to both ends of the second wire coil 40b wound around the inner ferrite core 30b and capable of connecting the input terminal of the power control unit 80. do. Accordingly, the first induced current induced from the first wire coil 40a wound around each outer ferrite core 30a can be transmitted and input to the power control unit 80 through the first terminal unit 91, and each The second induced current induced from the second wire coil 40b wound around the inner ferrite core 30b can be transmitted and input to the power control unit 80 through the second terminal unit 92, and the power control unit 80 may be configured to separately store and manage the first induced current transmitted through the first terminal 91 and the second induced current transmitted through the second terminal 92 .

Hereinafter, with reference to FIGS. 9 to 12, a sequential independent power generator having an induced current intensity selection function according to a second embodiment of the present invention will be described.

In the following description, the same references are given to the same configurations as those of the first embodiment, and descriptions thereof are omitted, and only configurations with differences are described.

In the second embodiment, the outer left and right magnet moving grooves 72aa extending in both directions at both ends in the longitudinal direction of the

front rail grooves

72a and 72b formed on the inner surfaces of each of the pair of rotor-

type rotating plates

50a and 50b, respectively. , 72ba) and inner left and right magnet moving grooves 72ab and 72bb are formed.

In a state in which the permanent magnet 60 is moved to the outer end or the inner end of the

front rail grooves

72a and 72b, the outer left and right magnet moving grooves 72aa and 72ba formed at the ends of the

front rail grooves

72a and 72b or the inner side It is configured to be movable left and right along the left and right magnet moving grooves 72ab and 72bb.

The present invention is formed to be connected to the outer left and right magnet moving grooves 72aa and 72ba on the outer surface of the

rotating plates

50a and 50b, and the

permanent magnets

60a and 60b are moved along the outer left and right magnet moving grooves 72aa and 72ba. When the coupling rod 76 is also configured to move the outer rod moving groove (73aa, 73ba).

In addition, it is formed to be connected to the inner left and right magnet moving grooves 72ab and 72bb on the outer surface of the

rotating plates

50a and 50b, and when the

permanent magnets

60a and 60b are moved along the inner left and right magnet moving grooves 72ab and 72bb , the inner rod moving grooves 73ab and 73bb for moving the coupling rod 76 together are configured.

At this time, the left and right outer magnet moving grooves 72aa and 72ba are formed in an arc shape having the same curvature as the plurality of outer ferrite cores 30a arranged in a first circumferential shape, and the inner left and right magnet moving grooves 72ab and 72bb are , composed of a circular arc shape having the same curvature as the plurality of inner ferrite cores 30b arranged in a second circumferential shape, and moving the

permanent magnets

60a and 60b along the left and right outer magnet moving grooves 72aa and 72ba. However, as the

rotating plates

50a and 50b rotate, the

permanent magnets

60a and 60b are configured to pass through the ends of the outer ferrite core 30a sequentially, and likewise, along the left and right inner magnet moving grooves 72ab and 72bb,

permanent magnets

60a and 60b are formed. Even when the

magnets

60a and 60b are moved, the

permanent magnets

60a and 60b sequentially pass through the ends of the inner ferrite core 30b according to the rotation of the

rotating plates

50a and 50b.

In the present invention according to the second embodiment, the left and right outer magnet moving grooves 72aa and 72ba formed at each end in a state in which the

permanent magnets

60a and 60b are moved to the outer end or the inner end of the front rail grooves 72a and 72b. ) or the inner left and right magnet movement grooves 72ab and 72bb to move left and right and sideways to adjust the position.

When the

permanent magnets

60a and 60b on both sides pass both ends of the

ferrite cores

30a and 30b, the central axis of the ferrite core, the center of the permanent magnet 60a on one side, and the center of the permanent magnet 60b on the other side A position where all of them coincide is not generated, and at least one of the center of one permanent magnet 60a and the center of the other permanent magnet 60b is configured to be offset from the central axis of the

ferrite cores

30a and 30b. .

With this configuration, as the

rotor plates

50a and 50b on both sides rotate, the permanent magnet 60a on one side first passes through one end of the ferrite core, and then the permanent magnet 60b on the other side passes through the other side of the ferrite core. As it passes through the end, the rotation of the rotating plates (50a, 50b) on both sides distributes the attraction between the permanent magnets (60a, 60b) and the ferrite cores (30a, 30b) on both sides to make rotation easier and improve power generation efficiency can make it

In the above, the present invention has been shown and described in relation to preferred embodiments for illustrating the principles of the present invention, but the present invention is not limited to the configuration and operation as shown and described. Rather, those skilled in the art will appreciate that many changes and modifications to the present invention can be made without departing from the spirit and scope of the appended claims. Accordingly, all such appropriate changes and modifications and equivalents should be regarded as belonging to the scope of the present invention.

The present invention as described above can be widely used in the power generation industry.

10... fixed plate

11... axis through hole

12a... external fixture

12b... inner fixation hole

20... Means for fixing and maintaining spacing

30a... outer ferrite core

30b... outer ferrite core

40a... 1st winding coil

40b... 1st winding coil

50... rotating plate for rotor

51... axis of rotation

60... permanent magnet

70... terminal board

80... power control unit

90... Rotational force generating means

70... magnet moving means

71... guide department

72... front rail groove

73... rear rail groove

75... magnet fixing part

76... combined rod

77... fixing member

80... Magnet moving drive unit

82... driving motor

Claims

A rotation axis through hole is formed at the center point, a plurality of fixing holes are formed for fixing a plurality of ferrite cores on a circumference, and a pair of fixing plates coupled in a parallel state;

A plurality of ferrite cores having a rod shape and fixedly installed between the pair of fixing plates in a form in which both ends are inserted into fixing holes of the ferrite core, respectively;

A plurality of winding coils wound around the outer circumferential surface of the ferrite core and inducing induced electromotive force or induced current generated when the magnetic field of the permanent magnet passes through each of the ferrite cores and transferring the induced electromotive force to a power control unit;

A pair of rotating plates fixed to both ends of a rotating shaft installed in a manner passing through the rotating shaft passing hole in a state of being disposed close to the outer side of the pair of fixed plates, respectively, and rotating together with the rotating shaft;

permanent magnets installed inside the rotating plate so that S poles and N poles face each other so as to have opposite directions, and provide magnetic fields to the plurality of ferrite cores;

It includes; a magnet moving means configured on the rotating plate to move the position of the permanent magnet;

The fixing plate includes a plurality of outer fixing holes spaced apart at predetermined intervals on a first circumference having a predetermined diameter, and spaced apart at predetermined intervals on a second circumference having a smaller diameter than the first circumference on the inside of the plurality of outer fixing holes. A plurality of inner fixing holes are configured,

The outer fixing hole and the inner fixing hole are configured to be arranged on a straight line along an outward direction from the center of the fixing plate,

The plurality of ferrite cores are composed of a plurality of outer ferrite cores inserted into and fixedly installed in the outer fixing hole and a plurality of inner ferrite cores inserted into and fixedly installed in the inner fixing hole,

The plurality of winding coils include a first winding coil wound around the outer ferrite core and a second winding coil wound around the inner ferrite core, wherein the first winding coil has more turns than the second winding coil. It is configured to have a bow, so that the induced current intensity generated when the permanent magnet passes through the end of the outer ferrite core is greater than the induced current intensity generated when the permanent magnet passes through the end of the inner ferrite core,

The magnet moving means causes the permanent magnet to be moved inward and outward from the center of the rotary plate along an outward direction so that the permanent magnet rotates according to the rotation of the rotary plate and sequentially passes through the ends of the plurality of outer ferrite cores. Characterized in that the first induced current is generated through the first winding coil or the second induced current is generated through the second winding coil by sequentially passing the ends of the plurality of inner ferrite cores. A sequential independent power generation device with an organic current intensity selection function.